Sustainability and Energy Center
Sustainability is built on three interconnected pillars that must be harmonized to create lasting impact: Economic, Social (Equity), and Environmental systems. Achieving balance among these elements ensures a sustainable future that supports economic growth, promotes social well-being, and preserves our planet for generations to come.
Goals of the Sustainability and Energy Center
- Empower Researchers: Provide opportunities for business development and consultancy to help researchers lead in their professions and communities.
- World-Class Programs: Develop and sustain research and consultancy programs of international standards.
- Economic and Social Development: Contribute to national and global progress aligned with the UN Sustainable Development Goals (2015-2030).
- Strategic Partnerships: Foster collaborations with government and sustainability-focused institutions locally, regionally, and internationally.
Key Focus Areas
- Renewable and sustainable energy systems
- Energy efficiency
- Sustainability in the built environment
- Hydrogen production, storage, and fuel cells
- Smart energy grids and analytics
- Micro-grid design and optimization
- Energy management systems
- Power and transportation nexus
- Power and water nexus, including desalination
- Carbon dioxide capture and storage
- Energy policy, regulation, and economics
- Public health impacts of energy technologies
- Energy storage and electric vehicle-grid integration
Projects
The Sustainability and Energy Center is at the forefront of cutting-edge research and innovation, developing solutions that redefine the future of energy and sustainability.
Our work spans groundbreaking projects in sustainable building practices, earthing material research, and converting waste into energy—driving a cleaner, greener, and more resilient tomorrow.
Papers and Publications
Journal Papers
Kahwaji, G.Y., Capuano, D., Boudekji, G., and Samaha, M.A. (2024) “Design and optimization of ground-coupled refrigeration heat exchanger in Dubai: Numerical approach,” Heat Transfer 53, pp. 1474–1500, DOI: 10.1002/htj.23006.
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Kahwaji, G.Y., Ali, M.T., and Samaha, M.A. (2021) “Heat transfer advancement from horizontal cylinder using passive shroud–chimney configuration: Experimental and numerical analysis,” Journal of Fluids Engineering, Transactions of the ASME 143, pp. 041204-1–041204-12, DOI: 10.1115/1.4049243.
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Kahwaji, G.Y., and Samaha, M.A. (2019) “Passive Natural Convection Augmentation from Horizontal Cylinder Using a Novel Shroud–Chimney Configuration,” Journal of Thermophysics and Heat Transfer 33, AIAA ARC, pp. 1006–1017, DOI: 10.2514/1.T5686.
Al-Sarrach, H.M.S., Kahwaji, G.Y., and Samaha, M.A. (2017) “Modeling Coupled Conduction–Convection Ice Formation on Horizontal Axially Finned and Unfinned Tubes,” Journal of Fluids Engineering, Transactions of the ASME 139, pp. 121101.1–121101.13, DOI: 10.1115/1.4037279
Conference papers/presentations/Abstracts
Samaha, M.A., Ali, M.T., Kahwaji, G.Y., Boudekji, G., and Capuano, D. (2024) “Design Optimization and Performance Advancement of Ground-Coupled Heat Exchanger,” Sixth International Conference on Computational Methods for Energy and Thermal Problems, THERMAECOMP2024, 09–11 Sep. 2024, Budva, Montenegro, N. Massarotti, P. Nithiarasu, and I. Vuˇsanovi´c (Eds.)
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Kahwaji, G.Y., Ali, M.T., Boudekji, G.,Capuano, D., Nasreldin, A.E., Khan, A., and Samaha, M.A. (2022) “Maximizing Performance of Ground-Coupled Heat Exchanger under Hot-Wet Climate Condition: Experimental and Numerical Analysis,” Proceedings of the 6th International Conference on Energy Harvesting, Storage, and Transfer (EHST’22), 08–10 June 2022, Niagara Falls, Canada, DOI: 10.11159.ehst22.117.